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Reproductive Performance of Holstein Dairy Cows Grazing in Dry-summer Subtropical Climatic Conditions: Effect of Heat Stress and Heat Shock on Meiotic Competence and In vitro Fertilization

  • Pavani, Krishna (Department of Agrarian Sciences, CITA-A (Research Centre for Agricultural and Environmental Sciences and Technology of the Azores), Animal Reproduction, University of the Azores) ;
  • Carvalhais, Isabel (Department of Agrarian Sciences, CITA-A (Research Centre for Agricultural and Environmental Sciences and Technology of the Azores), Animal Reproduction, University of the Azores) ;
  • Faheem, Marwa (Department of Animal Production Science, Faculty of Agriculture, Cairo University) ;
  • Chaveiro, Antonio (Department of Agrarian Sciences, CITA-A (Research Centre for Agricultural and Environmental Sciences and Technology of the Azores), Animal Reproduction, University of the Azores) ;
  • Reis, Francisco Vieira (Centre of Climate, Meteorology and Global Change of the University of the Azores) ;
  • da Silva, Fernando Moreira (Department of Agrarian Sciences, CITA-A (Research Centre for Agricultural and Environmental Sciences and Technology of the Azores), Animal Reproduction, University of the Azores)
  • 투고 : 2014.07.02
  • 심사 : 2014.11.02
  • 발행 : 2015.03.01

초록

The present study was designed to evaluate how environmental factors in a dry-summer subtropical climate in Terceira-Azores (situated in the North Atlantic Ocean: $38^{\circ}43^{\prime}N27^{\circ}12^{\prime}W$) can affect dairy cow (Holstein) fertility, as well as seasonal influence on in vitro oocytes maturation and embryos development. Impact of heat shock (HS) effects on in vitro oocyte's maturation and further embryo development after in vitro fertilization (IVF) was also evaluated. For such purpose the result of the first artificial insemination (AI) performed 60 to 90 days after calving of 6,300 cows were recorded for one year. In parallel, climatic data was obtained at different elevation points (n = 5) from 0 to 1,000 m and grazing points from 0 to 500 m, in Terceira island, and the temperature humidity index (THI) was calculated. For in vitro experiments, oocytes (n = 706) were collected weekly during all year, for meiotic maturation and IVF. Further, to evaluate HS effect, 891 oocytes were collected in the cold moths (December, January, February and March) and divided in three groups treated to HS for 24 h during in vitro maturation at: C (Control = $38.5^{\circ}C$), HS1 ($39.5^{\circ}C$) and HS2 ($40.5^{\circ}C$). Oocytes from each group were used for meiotic assessment and IVF. Cleavage, morula and blastocyst development were evaluated respectively on day 2, 6, and 9 after IVF. A negative correlation between cow's conception rate (CR) and THI in grazing points (-91.3%; p<0.001) was observed. Mean THI in warmer months (June, July, August and September) was $71.7{\pm}0.7$ and the CR ($40.2{\pm}1.5%$) while in cold months THI was $62.8{\pm}0.2$ and CR was $63.8{\pm}0.4%$. A similar impact was obtained with in vitro results in which nuclear maturation rate (NMR) ranged from 78.4% (${\pm}8.0$) to 44.3% (${\pm}8.1$), while embryos development ranged from 53.8% (${\pm}5.8$) to 36.3% (${\pm}3.3$) in cold and warmer months respectively. In vitro HS results showed a significant decline (p<0.05) on NMR of oocytes for every $1^{\circ}C$ rising temperature ($78.4{\pm}8.0$, $21.7{\pm}3.1$ and $8.9{\pm}2.2$, respectively for C, HS1, and HS2). Similar results were observed in cleavage rate and embryo development, showing a clear correlation (96.9 p<0.05) between NMR and embryo development with respect to temperatures. Results clearly demonstrated that, up to a THI of 70.6, a decrease in the CR occurs in first AI after calving; this impairment was confirmed with in vitro results.

키워드

참고문헌

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